Wing Solar
Understanding the complex structural physics and localized standard demands of heavy winter weather on solar mounting assemblies.
Snow loads are not static uniform distributions. Under typical winter conditions, structures must withstand unbalanced snow accumulation, sliding loads, and dynamic ice buildup. Our advanced customized racking calculations factor in complex aerodynamic variables, snow-fence shielding effects, and thermal conductivity patterns to prevent catastrophic structural collapses under multi-ton weights.
Using premium Anodized Aluminum AL6005-T5 and Hot-Dip Galvanized Steel Q355B, our racking designs incorporate dynamic load-bearing channels. Extra gussets, reinforced rails, and larger base footings spread the vertical force distribution, offering standard resistance margins that exceed 2.4 kN/m² up to extreme thresholds of 5.4 kN/m².
Heavy snow loads are frequently accompanied by severe, localized wind storms. We simulate structural reactions to wind-snow coupling forces through digital wind-tunnel modeling and finite element analyses (FEA) to confirm that the entire structural matrix maintains rigidity against negative lift and lateral shear vectors.
We offer a wide range of premium N-Type products for residential, commercial and industrial applications, and utility-scale, maximizing energy yield under all weather profiles.
Wing. Experience Premium Modules.
Designed specifically for residential roofs requiring high power density and premium aesthetics. Fully compatible with high-snow-load clamp assemblies and bracket kit solutions to guarantee safe operations during high winter snowpack layers.
Wing. Experience Premium Modules.
Engineered to balance dynamic loading limits with maximum mechanical strength. Perfectly scaled for large standard distributions across expansive factory, warehouse, and C&I structural setups.
Wing. Experience Premium Modules.
Optimized for massive power generation with double glass bifacial technology. When mounted on custom elevated, heavy-duty solar ground racking, the rear side gains maximum albedo reflective energy from underlying snow fields, elevating overall yield by up to 25%.
Adapting clean energy systems to geographic constraints from heavy snow load regions in Northern Europe to Canada and Japan's alpine areas.
With strict adherence to Eurocode 1 (EN 1991-1-3), our systems are widely exported to Austria, Germany, and Switzerland, featuring robust structural integrity. These systems utilize specialized, high-grade snow guards and optimized tilt elevations of 35°–45° to stimulate autonomous snow clearing.
Addressing severe winter profiles across Canada and the Northern United States, structures conform to ASCE 7-16 load metrics. Our custom ballast and ground anchor configurations prevent frost heave risks caused by seasonal deep soil freezing.
Meeting rigid JIS C 8955 standards, installations along the Sea of Japan are subjected to unique, wet, heavy snow loads. We implement specialized heavy-gauge, hot-dip galvanized racking frames capable of enduring massive horizontal sliding snow pressures.
Our business focus revolves around innovation, customer satisfaction, and environmental sustainability. With almost two decades in the solar industry, we have cultivated a deep understanding of solar technologies, trends, and advancements, fully embodied in our premium N-Type technology series.
With over 6GW of safe deliveries spanning more than 90 regions worldwide, we proudly showcase our commitment to renewable energy and preserving the environment. We are committed to making clean energy accessible to all people.
Since its establishment in 2005, Wing has maintained a steady growth trajectory, today employing more than 500 people in China and Europe. Since 2023, Wing Solar is a publicly traded company.
Wing has a strong international presence and a long track record. In 2023, Wing solidified its global operational framework by establishing its main overseas headquarters in Vienna, Austria.
Every geographic terrain and building structure demands a specialized approach. We custom-fit each racking design to its distinct engineering context.
Perfect for commercial storage depots and factory flat roofs. By coupling targeted roof penetrations with high-grade concrete ballast blocks, we guarantee that wind uplift is countered while heavy snow distributions are transferred evenly to the building's structural columns without compromising membrane integrity.
Utilizing direct-clamp technology on industrial standing seam sheet metal roofs, this system bypasses rafter penetrations completely. High-strength aluminum alloy clamps grip the standing seams tightly to resist vertical pulling forces from sliding snowpacks without causing metal tearing.
For large-scale utility fields, we raise the lower clearance height of our ground-mount structures to 1.5–2 meters above the historic local snowpack levels. This structural configuration prevents ground-level snow drifts from shading the lower PV panels and protects N-type bifacial setups.
Innovating the next generation of extreme-weather solar mounting systems through advanced materials and smart IoT monitoring.
We are prototyping new composite nano-coatings that dramatically lower surface friction. This allows accumulated snow to slide off panels and racking structures up to 40% faster, minimizing high dead-loads and restoring solar power generation profiles rapidly after heavy snow storms.
Integrating micro-sensor grids along crucial structural stress points allows real-time load diagnostics. Commercial operators can monitor weight accumulations via cloud dashboards, ensuring warning signals are triggered before localized threshold limits are reached.
Optimizing racking rear profiles allows maximum diffuse light reflection from snow backdrops to hit the underside of Wing 705Wp bifacial modules. This approach leverages winter snowpacks as highly reflective surfaces to enhance overall site performance.
Every custom order exported by our factory undergoes exhaustive engineering certification to meet regional regulatory demands.
Before our products are shipped globally, our racking prototypes undergo extreme structural tests. We apply hydraulic presses that simulate the localized weight of over 5.4 meters of packed snow, alongside continuous vibrating pressure cycles to emulate wind-gust resonance.
Furthermore, we utilize state-of-the-art software systems to model three-dimensional stress behaviors (FEA). This allows us to find and eliminate localized stress-points, optimizing the volume of aluminum and steel to secure maximum economic feasibility without compromising physical safety guidelines.
Fully engineered to comply with US and Canadian structural design regulations.
Fully calculated according to European EN 1991-1-3 guidelines for winter loads.
Rigorous salt-spray testing verifies continuous material health in coastal snow environments.
Physical models undergo dynamic tests to verify stability under high-speed wind shears.
Answers to critical structural engineering and project planning questions commonly raised by global contractors and solar developers.